CY8674 ITO Coated Glass Substrate 5-7 Ohm/Sq 25x25x1.1 mm

ITO Coated Glass Substrate 5-7 Ohm/Sq 25x25x1.1 mm Description

Featuring a uniform Indium Tin Oxide (ITO) layer, our ITO Coated Glass Substrate delivers a stable surface resistivity of 5–7 Ohms/sq. Measuring 25×25×1.1 mm, this precisely engineered substrate offers excellent optical clarity and high transmittance for performance in display technology and photovoltaic applications. The durable glass base is chemically reinforced to provide enhanced scratch resistance, ensuring a stable foundation for sensitive electronic components such as transparent heaters, sensors, and OLED devices.

We uphold stringent quality standards throughout the production process, guaranteeing consistent coating thickness and minimal sheet resistance variation. Each substrate undergoes testing to ensure compliance with industry requirements, making it a reliable choice for research laboratories, electronics manufacturers, and innovators seeking precision, repeatability, and results.

ITO Coated Glass Substrate 5-7 Ohm/Sq 25x25x1.1 mm Applications

The ITO Coated Glass Substrate 5-7 Ohm/Sq 25x25x1.1 mm is a versatile solution recognised for its electrical conductivity, transparency, and composition. These specialised substrates are essential in diverse applications, enabling control of optical and electrical properties. Manufacturers, researchers, and product designers rely on them for functions such as sensor development, display engineering, and material exploration.

1. Industrial Applications

·         Touchscreen panel manufacturing in automotive dashboards, benefiting from the substrate’s transparency and conductivity

·         High-sensitivity sensors in chemical processing and petrochemical equipment, where reliable electrical performance is crucial

2. Research Applications

·         Lab instrumentation requiring precise optical measurements, enabling data collection and analysis

·         Material exploration for electronics development, providing a stable conductive surface for experiments

3. Commercial Applications

·         Medical imaging devices that demand stable, transparent electrodes to ensure clear and accurate results

·         Solar cell modules benefiting from low-resistance conductive coatings to enhance renewable energy capture

ITO Coated Glass Substrate 5-7 Ohm/Sq 25x25x1.1 mm Packaging

These ITO coated glass substrates are carefully packaged between protective foam layers, sealed in static-dissipative pouches, and placed inside sturdy, clearly labelled cartons. For longevity, store in a clean, low-humidity environment to prevent contamination or damage. Each substrate is individually wrapped, reducing the risk of dust or particulate infiltration. Custom packaging solutions and product configurations are available upon request.

Packaging: Vacuum sealed, Wooden Box, or Customised.

ITO Coated Glass Substrate 5-7 Ohm/Sq 25x25x1.1 mm FAQs

Q1: What are the key material properties of ITO Coated Glass Substrate 5-7 Ohm/Sq 25x25x1.1 mm?

A1: This ITO (indium tin oxide) coated glass substrate features a sheet resistance of 5-7 ohms per square, ensuring electrical conductivity for touch panels and other electronic applications. Its 1.1 mm thick soda-lime glass base provides durability and low optical distortion. With over 80% visible light transmittance (typical), it balances transparency with conductivity, making it suitable for various display and sensor technologies.

Q2: How should this product be handled and stored?

A2: To preserve the ITO coating integrity, handle the substrate with clean, lint-free gloves and avoid touching the active surface with bare hands. Keep it free from dust or debris that could scratch the coating. Store the glass in a low-humidity, temperature-controlled environment, ideally in anti-static packaging. Avoid stacking heavy objects on top to prevent mechanical stress or substrate damage.

Q3: Which quality standards and certifications apply to ITO Coated Glass Substrate 5-7 Ohm/Sq 25x25x1.1 mm?

A3: These ITO-coated glass substrates typically adhere to ISO 9001:2015 quality management guidelines, ensuring consistency in manufacturing and product performance. Additionally, many suppliers conform to RoHS and REACH directives, demonstrating reduced hazardous substances and compliance with environmental regulations. The glass is produced using standardised processes to guarantee uniform conductivity, clarity, and thickness, making it reliable for commercial, industrial, and research applications requiring precise optical and electrical properties.

Related Information

1. Material Properties and Advantages

Ionic bonding within the indium tin oxide (ITO) coating enables a stable, transparent conducting layer that maintains consistent resistivity of 5-7 ohms per square. This 25×25×1.1 mm glass substrate is engineered for clarity and uniform sheet resistance, supporting high transmittance in the visible range. Its composition also ensures minimal impact on the angular dependency of light, making it suitable for optoelectronic applications where conductivity and optical quality are both crucial.

Meeting the demands of modern electronic displays and sensors, this substrate retains durability due to its glass base. Mechanical stability results from the controlled deposition technique, which limits surface defects and microcracking in the ITO layer. As a result, the product offers a conductive interface, enabling touch responses and electrical performance over time.

2. Applications in Advanced Industries

Interest in flexible and integrated electronic systems has led to the inclusion of ITO coated glass substrates in laboratories and production facilities that focus on emerging display technologies. From medical diagnostics devices to sensor arrays, the uniform resistance and optical transparency of this 25×25×1.1 mm substrate support signal collection and light transmission.

Collaborations among electronics manufacturers, solar panel innovators, and digital signage developers frequently incorporate this ITO coated glass. Its ability to maintain conductivity, even under varied environmental conditions, appeals to projects where performance is paramount. Consequently, the product remains an essential component in implementations, enabling clearer displays, improved circuit integration, and reliable sensor feedback in high-tech environments.